IEC 61158-6-10:2019 provides common elements for basic time-critical and non-time-critical messaging communications between application programs in an automation environment and material specific to Type 2 fieldbus. The term “time-critical” is used to represent the presence of a time-window, within which one or more specified actions are required to be completed with some defined level of certainty. Failure to complete specified actions within the time window risks failure of the applications requesting the actions, with attendant risk to equipment, plant and possibly human life. This International Standard specifies interactions between remote applications and defines the externally visible behavior provided by the Type 2 fieldbus application layer. The purpose of this document is to define the protocol provided to a) define the wire-representation of the service primitives defined in this document, and b) define the externally visible behavior associated with their transfer. This document specifies the protocol of the Type 2 fieldbus application layer, in conformance with the OSI Basic Reference Model (ISO/IEC 7498-1) and the OSI application layer structure (ISO/IEC 9545). This fourth edition includes the following significant technical changes with respect to the previous edition: a) integration of system redundancy basic functionality; b) integration of dynamic reconfiguration basic functionality; c) integration of reporting system basic functionality; d) integration of asset management basic functionality; e) integration of media redundancy ring interconnection basic functionality.

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PDF Pages	PDF Title
2	National foreword
5	Annex ZA(normative)Normative references to international publicationswith their corresponding European publications
9	CONTENTS
44	FOREWORD
46	INTRODUCTION
48	1 Scope 1.1 General 1.2 Specifications 1.3 Conformance
49	2 Normative references
52	3 Terms, definitions, abbreviated terms, symbols and conventions 3.1 Referenced terms and definitions 3.1.1 ISO/IEC 74981 terms 3.1.2 ISO/IEC 8822 terms 3.1.3 ISO/IEC 88241 terms 3.1.4 ISO/IEC 9545 terms
53	3.2 Terms and definitions for decentralized periphery
61	3.3 Abbreviated terms and symbols 3.3.1 Abbreviated terms and symbols for media redundancy 3.3.2 Abbreviated terms and symbols for decentralized periphery
65	3.3.3 Abbreviated terms and symbols for services 3.3.4 Abbreviated terms and symbols for IEEE 802.1Q 3.3.5 Abbreviated terms and symbols for IETF RFC 2474 3.3.6 Abbreviated terms and symbols for IETF RFC 4291 3.4 Conventions 3.4.1 General concept 3.4.2 Conventions for decentralized periphery
67	Figures Figure 1 – Common structure of specific fields for octet 1 (high) Figure 2 – Common structure of specific fields for octet 2 Figure 3 – Common structure of specific fields for octet 3
68	Figure 4 – Common structure of specific fields for octet 4 Figure 5 – Common structure of specific fields for octet 5 Figure 6 – Common structure of specific fields for octet 6
69	Figure 7 – Common structure of specific fields for octet 7 Figure 8 – Common structure of specific fields for octet 8 Figure 9 – Common structure of specific fields for octet 9
70	Figure 10 – Common structure of specific fields for octet 10 Figure 11 – Common structure of specific fields for octet 11 Figure 12 – Common structure of specific fields for octet 12
71	Figure 13 – Common structure of specific fields for octet 13 Figure 14 – Common structure of specific fields for octet 14 Figure 15 – Common structure of specific fields for octet 15
72	Figure 16 – Common structure of specific fields for octet 16 (low) Tables Table 1 – One octet
73	Table 2 – Two subsequent octets Table 3 – Four subsequent octets
74	3.4.3 Conventions used in state machines Table 4 – Eight subsequent octets Table 5 – Sixteen subsequent octets
75	Table 6 – State machine description elements Table 7 – Description of state machine elements
76	Table 8 – Conventions used in state machines
77	Table 9 – Conventions for services used in state machines
79	4 Application layer protocol specification for common protocols 4.1 FAL syntax description 4.1.1 DLPDU abstract syntax reference Table 10 – IEEE 802.3 DLPDU syntax
80	Table 11 – IEEE 802.11 DLPDU syntax
81	4.1.2 Data types Table 12 – IEEE 802.15.1 DLPDU syntax
82	4.2 Transfer syntax 4.2.1 Coding of basic data types
84	Figure 17 – Coding of the data type BinaryDate Figure 18 – Encoding of TimeOfDay with date indication value
85	Figure 19 – Encoding of TimeOfDay without date indication value Figure 20 – Encoding of TimeDifference with date indication value Figure 21 – Encoding of TimeDifference without date indication value
86	Figure 22 – Encoding of a NetworkTime value Figure 23 – Encoding of NetworkTimeDifference value Table 13 – Status
87	Figure 24 – Encoding of TimeStamp value
88	Figure 25 – Encoding of TimeStampDifference value Table 14 – Time source
89	Figure 26 – Encoding of TimeStampDifferenceShort value
90	4.2.2 Coding section related to common basic fields Table 15 – SourceAddress Table 16 – Single port device
91	Table 17 – DCP_MulticastMACAdd for Identify Table 18 – DCP_MulticastMACAdd for Hello Table 19 – DCP_MulticastMACAdd Table 20 – MulticastMACAdd range 1 Table 21 – MulticastMACAdd range 2
92	Table 22 – MulticastMACAdd range 3 Table 23 – PTCP_MulticastMACAdd range 2 Table 24 – PTCP_MulticastMACAdd range 3 Table 25 – PTCP_MulticastMACAdd range 4
93	Table 26 – PTCP_MulticastMACAdd range 5 Table 27 – PTCP_MulticastMACAdd range 6 Table 28 – PTCP_MulticastMACAdd range 7 Table 29 – MulticastMACAdd range 8 Table 30 – MulticastMACAdd range 9
94	Table 31 – MulticastMACAdd range 10 Table 32 – MulticastMACAdd range 11
95	Figure 27 – FastForwardingMulticastMACAdd Table 33 – RT_CLASS_3 destination multicast address
96	Table 34 – RT_CLASS_3 invalid frame multicast address Table 35 – LT (Length/Type) Table 36 – TagControlInformation.VID
97	Table 37 – TagControlInformation.DEI Table 38 – TagControlInformation.PCP Table 39 – FrameID range 1
98	Table 40 – FrameID range 2 Table 41 – FrameID range 3 Table 42 – FrameID range 4 Table 43 – FrameID range 5
99	Table 44 – FrameID range 6 Table 45 – FrameID range 7 Table 46 – FrameID range 8
100	Table 47 – FrameID range 9 Table 48 – FrameID range 10 Table 49 – FrameID range 11 Table 50 – FrameID range 12 Table 51 – FrameID range 13
101	4.3 Discovery and basic configuration 4.3.1 DCP syntax description Table 52 – FragmentationFrameID.FragSequence Table 53 – FragmentationFrameID.Constant Table 54 – DCP APDU syntax
102	Table 55 – DCP substitutions
105	Table 56 – ServiceID Table 57 – ServiceType.Selection Table 58 – ServiceType.Reserved
106	Table 59 – ServiceType.Selection Table 60 – ServiceType.Reserved_1 Table 61 – ServiceType.Response Table 62 – ServiceType.Reserved_2
107	Table 63 – ResponseDelayFactor
108	Table 64 – List of options
109	Table 65 – List of suboptions for option IPOption Table 66 – List of suboptions for option DevicePropertiesOption Table 67 – List of suboptions for option DHCPOption
110	Table 68 – List of suboptions for option ControlOption Table 69 – List of suboptions for option DeviceInitiativeOption Table 70 – List of suboptions for option AllSelectorOption Table 71 – List of suboptions for option ManufacturerSpecificOption
112	Table 72 – SuboptionDHCP
113	Table 73 – Coding of DCPBlockLength in conjunction with SuboptionStart Table 74 – Coding of DCPBlockLength in conjunction with SuboptionStop Table 75 – Coding of DCPBlockLength in conjunction with SuboptionSignal
114	Table 76 – Coding of DCPBlockLength in conjunction with SuboptionFactoryReset Table 77 – Alignment between FactoryReset and ResetToFactory Table 78 – Coding of DCPBlockLength in conjunction with SuboptionResetToFactory
115	Table 79 – Meaning of the different ResetToFactory modes Table 80 – Coding of DCPBlockLength in conjunction with SuboptionDeviceInitiative
116	Table 81 – Coding of DCPBlockLength Table 82 – BlockQualifier with options IPOption, DevicePropertiesOption, DHCPOption and ManufacturerSpecificOption
117	Table 83 – BlockQualifier with option ControlOption and suboption SuboptionResetToFactory
118	Table 84 – BlockQualifier with option ControlOption and NOT suboption SuboptionResetToFactory Table 85 – BlockError Table 86 – BlockInfo for SuboptionIPParameter
119	Table 87 – Bit 1 and Bit 0 of BlockInfo for SuboptionIPParameter Table 88 – Bit 7 of BlockInfo for SuboptionIPParameter Table 89 – BlockInfo for all other suboptions Table 90 – DeviceInitiativeValue
120	Table 91 – SignalValue
122	Table 92 – DeviceRoleDetails Table 93 – IPAddress
124	Table 94 – Subnetmask
125	Table 95 – StandardGateway
126	Table 96 – Correlation between the subfields of IPsuite
127	Table 97 – MACAddress as client identifier Table 98 – NameOfStation as client identifier Table 99 – Arbitrary client identifier
128	Table 100 – DHCPParameterValue using DHCP Option 255
129	4.3.2 DCP protocol state machines Table 101 – StandardGatewayValue.StandardGateway Table 102 – Remote primitives issued or received by DCPUCS
130	Figure 28 – State transition diagram of DCPUCS Table 103 – Local primitives issued or received by DCPUCS
131	Table 104 – DCPUCS state table
133	Table 105 – Functions, Macros, Timers and Variables used by the DCPUCS
134	Figure 29 – State transition diagram of DCPUCR Table 106 – Remote primitives issued or received by DCPUCR Table 107 – Local primitives issued or received by DCPUCR
135	Table 108 – DCPUCR state table
137	Table 109 – Functions, Macros, Timers and Variables used by the DCPUCR Table 110 – Remote primitives issued or received by DCPMCS
138	Figure 30 – State transition diagram of DCPMCS Table 111 – Local primitives issued or received by DCPMCS
139	Table 112 – DCPMCS state table
140	Table 113 – Functions used by the DCPMCS
141	Figure 31 – State transition diagram of DCPMCR Table 114 – Remote primitives issued or received by DCPMCR Table 115 – Local primitives issued or received by DCPMCR
142	Table 116 – DCPMCR state table
143	Table 117 – Functions, Macros, Timers and Variables used by the DCPMCR Table 118 – Remote primitives issued or received by DCPHMCS
144	Figure 32 – State transition diagram of DCPHMCS Table 119 – Local primitives issued or received by DCPHMCS Table 120 – DCPHMCS state table
145	Table 121 – Functions, Macros, Timers and Variables used by the DCPHMCS Table 122 – Remote primitives issued or received by DCPHMCR Table 123 – Local primitives issued or received by DCPHMCR
146	4.3.3 DLL Mapping Protocol Machines Figure 33 – State transition diagram of DCPHMCR Table 124 – DCPHMCR state table Table 125 – Functions, Macros, Timers and Variables used by the DCPHMCR
147	4.4 Precision working time control 4.4.1 FAL syntax description Table 126 – PTCP APDU syntax Table 127 – PTCP substitutions
148	Table 128 – PTCP_TLVHeader.Type
149	Table 129 – PTCP_Delay10ns Table 130 – PTCP_Delay1ns_Byte.Value
150	Table 131 – PTCP_Delay1ns Table 132 – PTCP_Delay1ns_FUP Table 133 – PTCP_SequenceID
151	Figure 34 – PTCP_SequenceID value range Table 134 – PTCP_SubType for OUI (=00-0E-CF)
152	Table 135 – PTCP_Seconds Table 136 – PTCP_NanoSeconds Table 137 – PTCP_Flags.LeapSecond
153	Table 138 – Timescale correspondence between PTCP_EpochNumber, PTCP_Second, PTCP_Nanosecond, CycleCounter and SendClockFactor
154	Figure 35 – Timescale correspondence between PTCP_Time and CycleCounter
155	Table 139 – PTCP_CurrentUTCOffset Table 140 – PTCP_MasterPriority1.Priority for SyncID == 0 and SyncProperties.Role == 2 Table 141 – PTCP_MasterPriority1.Priority for SyncID == 0 and SyncProperties.Role == 1
156	Table 142 – PTCP_MasterPriority1.Level Table 143 – PTCP_MasterPriority2 Table 144 – PTCP_ClockClass for SyncID == 0 (working clock synchronization)
157	Table 145 – PTCP_ClockAccuracy
158	4.4.2 AP-Context state machine 4.4.3 FAL Service Protocol Machines Table 146 – PTCP_ClockVariance Table 147 – PTCP_T2PortRxDelay Table 148 – PTCP_T3PortTxDelay Table 149 – PTCP_T2TimeStamp
159	4.4.4 Application Relationship Protocol Machines Figure 36 – Message timestamp point Figure 37 – Timer model
160	Figure 38 – Four message timestamps
161	Figure 39 – Line delay protocol with follow up Figure 40 – Line delay protocol without follow up
163	Figure 41 – Line delay measurement
165	Figure 42 – Model parameter for GSDML usage
166	Figure 43 – Bridge delay measurement
167	Figure 44 – Delay accumulation
168	Figure 45 – Worst case accumulated time deviation of synchronization Figure 46 – Signal generation for measurement of deviation
169	Figure 47 – Measurement of deviation
170	Figure 48 – PTCP master sending Sync-Frame without Follow Up-Frame Figure 49 – PTCP master sending Sync-Frame with FollowUp-Frame
171	Figure 50 – !FU Sync Slave Forwarding Sync-Frame
172	Figure 51 – FU Sync Slave Forwarding Sync- and FollowUp-Frame
173	Figure 52 – FU Sync Slave Forwarding Sync- and Generating FollowUp-Frame
174	Figure 53 – Principle of the monitoring of the line delay measurement
175	Table 150 – Remote primitives issued or received by DELAY_REQ Table 151 – Local primitives issued or received by DELAY_REQ
176	Figure 54 – State transition diagram of DELAY_REQ
177	Table 152 – DELAY_REQ state table
181	Table 153 – Functions, macros, timers and variables used by the DELAY_REQ
183	Table 154 – Remote primitives issued or received by DELAY_RSP Table 155 – Local primitives issued or received by DELAY_RSP
184	Figure 55 – State transition diagram of DELAY_RSP
185	Table 156 – DELAY_RSP state table
187	Table 157 – Functions, Macros, Timers and Variables used by the DELAY_RSP
188	Figure 56 – Overview of PTCP
189	Table 158 – Remote primitives issued or received by SYN_BMA Table 159 – Local primitives issued or received by SYN_BMA
191	Figure 57 – State transition diagram of SYN_BMA
192	Table 160 – SYN_BMA state table
196	Table 161 – Functions, Macros, Timers and Variables used by the SYN_BMA
199	Table 162 – Remote primitives issued or received by SYN_MPSM Table 163 – Local primitives issued or received by SYN_MPSM
200	Figure 58 – State transition diagram of SYN_MPSM
201	Table 164 – SYN_MPSM state table
204	Table 165 – Functions, Macros, Timers and Variables used by the SYN_MPSM
205	Table 166 – Remote primitives issued or received by SYN_SPSM Table 167 – Local primitives issued or received by SYN_SPSM
206	Figure 59 – State transition diagram of SYN_SPSM
207	Table 168 – SYN_SPSM state table
210	Table 169 – Functions, Macros, Timers and Variables used by the SYN_SPSM
211	Table 170 – Truth table for one SyncID for receiving sync and follow up frames
212	Table 171 – Remote primitives issued or received by SYNC_RELAY Table 172 – Local primitives issued or received by SYNC_RELAY
213	Figure 60 – State transition diagram of SYNC_RELAY
214	Table 173 – SYNC_RELAY state table
215	Table 174 – Functions, Macros, Timers and Variables used by the SYNC_RELAY
217	Table 175 – Truth table for one SyncID for receiving
218	Table 176 – Truth table for one SyncID for transmitting Table 177 – Remote primitives issued or received by SCHEDULER
219	Figure 61 – State transition diagram of SCHEDULER Table 178 – Local primitives issued or received by SCHEDULER
220	Table 179 – SCHEDULER state table
221	Table 180 – Functions, Macros, Timers and Variables used by the SCHEDULER
222	4.4.5 DLL Mapping Protocol Machines 4.5 Time synchronization 4.5.1 General Table 181 – Truth table for RxPeriodChecker of one port Table 182 – Truth table for TxPeriodChecker of one port Table 183 – Timescales
223	4.5.2 GlobalTime 4.5.3 WorkingClock Figure 62 – GlobalTime timer model Table 184 – Timescale correspondence between GlobalTime, TAI and UTC
224	4.6 Media redundancy 4.6.1 Media redundancy and loop prevention Figure 63 – WorkingClock timer model Figure 64 – Media redundancy – Ring
225	Table 185 – Conjunction between supported MRP_Role and default MRP_Prio Table 186 – Extended forwarding rule
226	Figure 65 – Media redundancy – Interconnection Table 187 – Managed Multicast MAC address
227	4.6.2 Seamless media redundancy 4.7 Real time cyclic 4.7.1 FAL syntax description Table 188 – RTC APDU syntax
228	4.7.2 FAL transfer syntax Table 189 – RTC substitutions
229	Figure 66 – CycleCounter value range Table 190 – CycleCounter Difference
230	Figure 67 – Structure of the CycleCounter
231	Figure 68 – Optimized CycleCounter setting Table 191 – DataStatus.State
232	Table 192 – DataStatus.Redundancy in conjunction with DataStatus.State==Backup Table 193 – DataStatus.Redundancy in conjunction with DataStatus.State==Primary Table 194 – DataStatus.DataValid Table 195 – DataStatus.ProviderState
233	Table 196 – DataStatus.StationProblemIndicator Table 197 – DataStatus.Ignore of a frame Table 198 – DataStatus.Ignore of a sub frame
234	Table 199 – TransferStatus for RT_CLASS_3
235	Figure 69 – SFCRC16 generation rule Table 200 – SFPosition.Position Table 201 – SFPosition.Reserved Table 202 – SFDataLength
236	Figure 70 – SFCycleCounter value range
237	Table 203 – SFCycleCounter Difference Table 204 – IOxS.Extension Table 205 – IOxS.Instance
238	4.7.3 FAL Service Protocol Machines 4.7.4 Application Relationship Protocol Machines Table 206 – IOxS.DataState
239	Figure 71 – Basic structure of a PPM with frame structure
240	Figure 72 – Basic structure of a PPM with subframe structure Table 207 – APDU_Status of a PPM with subframe structure
241	Table 208 – Remote primitives issued or received by PPM Table 209 – Local primitives issued or received by PPM
242	Figure 73 – State transition diagram of PPM
243	Table 210 – PPM state table
244	Table 211 – Functions, Macros, Timers and Variables used by the PPM
245	Table 212 – Truth table used by the PPM for TxOption
246	Figure 74 – Basic structure of a CPM
247	Table 213 – Remote primitives issued or received by CPM Table 214 – Local primitives issued or received by CPM
248	Figure 75 – State transition diagram of CPM
249	Table 215 – CPM state table
252	Table 216 – Functions, Macros, Timers and Variables used by the CPM
253	Table 217 – Truth table used by the CPM for RxOption
254	Table 218 – Truth table for one frame using RT_CLASS_x Table 219 – Truth table for one frame using RT_CLASS_UDP Table 220 – Truth table for the C_SDU
255	Table 221 – Truth table for arranging DHt and data Table 222 – Truth table for the subframe – frame check Table 223 – Truth table for the subframe – sub frame check
256	4.7.5 DLL Mapping Protocol Machines 4.8 Real time acyclic 4.8.1 RTA syntax description Table 224 – Truth table for the subframe – sub frame data check Table 225 – Truth table for the subframe – DHt and data Table 226 – RTA APDU syntax
257	4.8.2 RTA transfer syntax Table 227 – RTA substitutions
258	Figure 76 – Addressing scheme of RTA
259	Table 228 – PDUType.Type Table 229 – PDUType.Version Table 230 – AddFlags.WindowSize Table 231 – AddFlags.TACK
260	Table 232 – SendSeqNum Table 233 – SendSeqNum and AckSeqNum start sequence
261	4.8.3 FAL Service Protocol Machines 4.8.4 Application Relationship Protocol Machines Table 234 – AckSeqNum Table 235 – VarPartLen
262	Figure 77 – Structure of the APM
263	Figure 78 – Structure of the APMS Table 236 – Remote primitives issued or received by APMS
264	Table 237 – Local primitives issued or received by APMS
265	Figure 79 – State transition diagram of APMS
266	Table 238 – APMS state table
268	Table 239 – Functions, Macros, Timers and Variables used by the APMS
270	Figure 80 – Structure of the APMR
271	Table 240 – Remote primitives issued or received by APMR
272	Figure 81 – State transition diagram of APMR Table 241 – Local primitives issued or received by APMR
273	Table 242 – APMR state table
275	Table 243 – Functions, Macros, Timers and Variables used by the APMR
276	4.8.5 DLL Mapping Protocol Machines 4.9 Fragmentation 4.9.1 General Table 244 – TagControlInformation.PCP vs. streams
279	4.9.2 FRAG syntax description Table 245 – Lower limit of fragments Table 246 – FRAG APDU syntax
280	4.9.3 FRAG transfer syntax Table 247 – FRAG substitutions
281	Table 248 – FragDataLength Table 249 – FragStatus.FragmentNumber Table 250 – FragStatus.Reserved
282	4.9.4 FAL Service Protocol Machines 4.9.5 Application Relationship Protocol Machines 4.9.6 DLL Mapping Protocol Machines Table 251 – FragStatus.MoreFollows Table 252 – Remote primitives issued or received by FRAG_D Table 253 – Local primitives issued or received by FRAG_D
283	Figure 82 – State transition diagram of FRAG_D
284	Table 254 – FRAG_D state table (dynamic)
285	Table 255 – Functions, Macros, Timers and Variables used by the FRAG_D (dynamic)
286	Table 256 – Remote primitives issued or received by FRAG_S Table 257 – Local primitives issued or received by FRAG_S
287	Figure 83 – State transition diagram of FRAG_S
288	Table 258 – FRAG_S state table (static)
289	Table 259 – Functions, Macros, Timers and Variables used by the FRAG_S (static)
290	Figure 84 – State transition diagram of DEFRAG Table 260 – Remote primitives issued or received by DEFRAG Table 261 – Local primitives issued or received by DEFRAG
291	Table 262 – DEFRAG state table
292	Table 263 – Functions, Macros, Timers and Variables used by the DEFRAG Table 264 – Truth table for the DefragGuard – first fragment Table 265 – Truth table for the DefragGuard – next fragment
293	4.10 Remote procedure call 4.10.1 General 4.10.2 RPC syntax description Table 266 – Truth table for the DefragGuard – last fragment Table 267 – RPC APDU syntax
294	Table 268 – RPC substitutions
295	4.10.3 RPC Transfer syntax Table 269 – RPCVersion Table 270 – RPCPacketType
296	Table 271 – RPCFlags Table 272 – RPCFlags2
297	Table 273 – RPCDRep.Character- and IntegerEncoding Table 274 – RPCDRep Octet 2 – Floating Point Representation
298	Table 275 – RPCObjectUUID.Data4 Table 276 – RPCObjectUUID for devices Table 277 – Instance or node number
299	Table 278 – RPCInterfaceUUID for PNIO Table 279 – RPCInterfaceUUID for the RPC end point mapper
300	Table 280 – RPCInterfaceVersion.Major Table 281 – RPCInterfaceVersion.Minor
301	Table 282 – RPCOperationNmb (IO device, controller and supervisor) Table 283 – RPCOperationNmb for endpoint mapper
302	Table 284 – RPCVersionFack
303	Table 285 – RPCDataRepresentationUUID – defined values
305	Table 286 – RPCInquiryType
307	Table 287 – RPCEPMapStatus
309	Table 288 – Values of NCAFaultStatus
310	Table 289 – Values of NCARejectStatus
311	4.10.4 FAL Service Protocol Machines 4.10.5 Application Relationship Protocol Machines Table 290 – Remote primitives issued or received by RPC Table 291 – Local primitives issued or received by RPC
312	4.10.6 DLL Mapping Protocol Machines 4.11 Link layer discovery 4.11.1 General 4.11.2 FAL common syntax description
313	Table 292 – LLDP APDU syntax Table 293 – LLDP substitutions
314	4.11.3 LLDP transfer syntax Table 294 – LLDP_ChassisID in conjunction with MultipleInterfaceMode.NameOfDevice == 0 and NameOfStation Table 295 – LLDP_ChassisID in conjunction with MultipleInterfaceMode.NameOfDevice == 1
315	Table 296 – LLDP_PortID in conjunction with MultipleInterfaceMode.NameOfDevice Table 297 – LLDP_PNIO_SubType
316	Table 298 – PTCP_PortRxDelayLocal Table 299 – PTCP_PortRxDelayRemote Table 300 – PTCP_PortTxDelayLocal Table 301 – PTCP_PortTxDelayRemote
317	Table 302 – CableDelayLocal Table 303 – RTClass2_PortStatus.State with ARProperties.StartupMode == Legacy Table 304 – RTClass2_PortStatus.State with ARProperties.StartupMode == Advanced
318	Table 305 – RTClass3_PortStatus.State Table 306 – RTClass3_PortStatus.Fragmentation Table 307 – RTClass3_PortStatus.PreambleLength
319	Table 308 – Truth table for shortening of the preamble Table 309 – RTClass3_PortStatus.Optimized
320	Table 310 – MRRT_PortStatus.State Table 311 – IRDataUUID Table 312 – LLDP_RedOrangePeriodBegin.Offset Table 313 – LLDP_RedOrangePeriodBegin.Valid
321	Table 314 – LLDP_OrangePeriodBegin.Offset Table 315 – LLDP_OrangePeriodBegin.Valid with ARProperties.StartupMode == Legacy Table 316 – LLDP_OrangePeriodBegin.Valid with ARProperties.StartupMode == Advanced
322	Table 317 – LLDP_GreenPeriodBegin.Offset Table 318 – LLDP_GreenPeriodBegin.Valid Table 319 – LLDP_LengthOfPeriod.Length Table 320 – LLDP_LengthOfPeriod.Valid
324	4.11.4 FAL Service Protocol Machines 4.11.5 Application Relation Protocol Machines 4.11.6 DLL Mapping Protocol Machines 4.12 Bridges and End Stations 4.12.1 General Figure 85 – DLL Maping Protocol Machines (DMPM)
325	4.12.2 Model
326	Table 321 – Priority remapping at an ingress boundary port
327	Table 322 – Trees and FDBs
329	Figure 86 – Principle traffic flow model of a bridge Table 323 – Available queue
330	Figure 87 – Principle resource model of a bridge Table 324 – Queue related memory management
331	Table 325 – Queue usage Table 326 – Queue usage
332	Table 327 – QBTSA usage
333	Table 328 – QBTSA usage
335	Figure 88 – End station – on port bridge – transmit
336	Figure 89 – End station – on port bridge – receive
337	Figure 90 – Bridge with End Station Figure 91 – Transmit – one port of a bridge
338	Figure 92 – Forwarding process – bridge Figure 93 – Receive – on port of a bridge
339	Figure 94 – Transmit – Management port
340	4.12.3 Traffic Shaping Figure 95 – Receive – Management port
341	4.12.4 Bridge extensions Table 329 – Traffic Classes[0..7] for eight queues Table 330 – Traffic Classes[0..3] for four queues
342	4.12.5 QueueHandler 4.12.6 FAL Service Protocol Machines 4.12.7 Application Relation Protocol Machines 4.12.8 DLL Mapping Protocol Machines Table 331 – Unicast FDB entries
343	Table 332 – Multicast FDB entries
344	Table 333 – Broadcast FDB entry Table 334 – Remote primitives issued or received by MAC_RELAY
345	Table 335 – Local primitives issued or received by MAC_RELAY Table 336 – Functions, Macros, Timers and Variables used by the MAC_RELAY
346	Figure 96 – State transition diagram of RTC3PSM Table 337 – Remote primitives issued or received by RTC3PSM Table 338 – Local primitives issued or received by RTC3PSM
347	Table 339 – RTC3PSM state table
348	Table 340 – Functions, Macros, Timers and Variables used by the RTC3PSM
349	Table 341 – Truth table for the RTC3PSM Table 342 – RXBeginEndAssignment and TXBeginEndAssignment
350	Figure 97 – State transition diagram for generating events Table 343 – Event function table
351	Table 344 – Remote primitives issued or received by RED_RELAY Table 345 – Local primitives issued or received by RED_RELAY
352	Figure 98 – State transition diagram of RED_RELAY
353	Table 346 – RED_RELAY state table
354	Table 347 – Functions, Macros, Timers and Variables used by the RED_RELAY Table 348 – Truth table for the RedGuard with full check
355	Table 349 – Truth table for the RedGuard with reduced check Table 350 – Truth table for the RedGuard with minimal check
356	Figure 99 – Scheme of the DFP_RELAY Figure 100 – Scheme of the DFP_RELAY_INBOUND and DFP_RELAY_IN_STORAGE
357	Figure 101 – Scheme of the DFP_RELAY_OUTBOUND Table 351 – Remote primitives issued or received by DFP_RELAY
358	Figure 102 – State transition diagram of DFP_RELAY Table 352 – Local primitives issued or received by DFP_RELAY
359	Table 353 – DFP_RELAY state table Table 354 – Functions, Macros, Timers and Variables used by the DFP_RELAY
360	Table 355 – Truth table for the DFPGuard Table 356 – Remote primitives issued or received by DFP_RELAY_INBOUND
361	Figure 103 – State transition diagram of DFP_RELAY_INBOUND Table 357 – Local primitives issued or received by DFP_RELAY_INBOUND
362	Table 358 – DFP_RELAY_INBOUND state table Table 359 – Functions, Macros, Timers and Variables usedby the DFP_RELAY_INBOUND
363	Table 360 – Truth table for the InboundGuard – frame check Table 361 – Truth table for the InboundGuard – sub frame check Table 362 – Truth table for the InboundGuard – sub frame data check
364	Table 363 – Truth table for the InboundGuard – full check Table 364 – Remote primitives issued or received by DFP_RELAY_IN_STORAGE
365	Figure 104 – State transition diagram of DFP_RELAY_IN_STORAGE Table 365 – Local primitives issued or received by DFP_RELAY_IN_STORAGE
366	Table 366 – DFP_RELAY_IN_STORAGE state table
367	Table 367 – Functions, Macros, Timers and Variables used by the DFP_RELAY_IN_STORAGE
368	Table 368 – Remote primitives issued or received by DFP_RELAY_OUTBOUND Table 369 – Local primitives issued or received by DFP_RELAY_OUTBOUND
369	Figure 105 – State transition diagram of DFP_RELAY_OUTBOUND Table 370 – APDU_Status used if frame is shortened
370	Table 371 – DFP_RELAY_OUTBOUND state table
371	Table 372 – Functions, Macros, Timers and Variables used by the DFP_RELAY_OUTBOUND Table 373 – Truth table for the OutboundGuard – frame check
372	Table 374 – Truth table for the OutboundGuard – sub frame check Table 375 – Remote primitives issued or received by MUX Table 376 – Local primitives issued or received by MUX
373	Figure 106 – State transition diagram of MUX
374	Table 377 – MUX state table
375	Table 378 – Functions, Macros, Timers and Variables used by MUX
376	Table 379 – Truth table for FrameSizeFits Table 380 – Truth table for StateChecker
377	Table 381 – Remote primitives issued or received by DEMUX Table 382 – Local primitives issued or received by DEMUX
378	Figure 107 – State transition diagram of DEMUX
379	Table 383 – DEMUX state table
380	Table 384 – Functions, Macros, Timers and Variables used by the DEMUX
381	4.13 IP suite 4.13.1 Overview 4.13.2 IP/UDP syntax description Table 385 – IP/UDP APDU syntax
382	4.13.3 IP/UDP transfer syntax Table 386 – IP/UDP substitutions
383	Table 387 – UDP_SrcPort Table 388 – UDP_DstPort Table 389 – IP_DstIPAddress Table 390 – IP Multicast DstIPAddress according to IETF RFC 2365
384	Table 391 – IP_DifferentiatedServices.DSCP Table 392 – IP_DifferentiatedServices.ECN
385	4.13.4 ARP Table 393 – Remote primitives issued or received by ACCM
386	Figure 108 – State transition diagram of ACCM Table 394 – Local primitives issued or received by ACCM
387	4.14 Domain name system 4.14.1 General 4.14.2 Primitive definitions Table 395 – ACCM state table Table 396 – Functions, Macros, Timers and Variables used by the ACCM
388	4.14.3 DNS state transition diagram 4.14.4 State machine description 4.14.5 DNS state table 4.14.6 Functions, Macros, Timers and Variables 4.15 Dynamic host configuration 4.15.1 General Table 397 – Remote primitives issued or received by DNS Table 398 – Local primitives issued or received by DNS Table 399 – Functions, Macros, Timers and Variables used by the DNS
389	4.15.2 Primitive definitions 4.15.3 DHCP state transition diagram 4.15.4 State machine description 4.15.5 DHCP state table 4.15.6 Functions, Macros, Timers and Variables Table 400 – Remote primitives issued or received by DHCP Table 401 – Local primitives issued or received by machines
390	4.16 Simple network management 4.16.1 Overview 4.16.2 IETF RFC 1213-MIB 4.16.3 Enterprise number for PNIO MIB Table 402 – Functions, Macros, Timers and Variables used by the DHCP Table 403 – List of supported IETF RFC 1213-MIB objects
391	4.16.4 MIB cross reference 4.16.5 Behavior in case of modular built bridges 4.16.6 LLDP EXT MIB 4.17 Common DLL Mapping Protocol Machines 4.17.1 Overview Table 404 – Enterprise number Table 405 – Cross reference – MIBs Table 406 – Cross reference – PDPortDataAdjust
392	4.17.2 Data Link Layer Mapping Protocol Machine Figure 109 – Structuring of the protocol machines within the DMPM (bridge)
393	Table 407 – Remote primitives issued or received by LMPM
394	Table 408 – Local primitives issued or received by LMPM
395	Figure 110 – State transition diagram of LMPM Table 409 – LMPM state table
396	Table 410 – Functions, Macros, Timers and Variables used by the LMPM
397	4.18 Additional definitions 5 Application layer protocol specification for decentralized periphery 5.1 FAL syntax description 5.1.1 DLPDU abstract syntax reference 5.1.2 APDU abstract syntax
398	Table 411 – IO APDU substitutions
416	5.2 Transfer syntax 5.2.1 Coding section related to BlockHeader specific fields Table 412 – BlockType
429	Table 413 – BlockLength
430	Table 414 – BlockVersionHigh Table 415 – BlockVersionLow
431	5.2.2 Coding section related to RTA-SDU specific fields Table 416 – AlarmType
434	Figure 111 – AlarmSpecifier.SequenceNumber value range Table 417 – AlarmSpecifier.SequenceNumber
435	Table 418 – AlarmSpecifier.SequenceNumber Difference Table 419 – AlarmSpecifier.ChannelDiagnosis Table 420 – AlarmSpecifier.ManufacturerSpecificDiagnosis
436	5.2.3 Coding section related to common address fields Table 421 – AlarmSpecifier.SubmoduleDiagnosisState Table 422 – AlarmSpecifier.ARDiagnosisState
437	Table 423 – API Table 424 – SlotNumber Table 425 – SubslotNumber
438	Table 426 – Index range
439	Table 427 – Expression 1 (subslot specific) Table 428 – Expression 2 (slot specific) Table 429 – Expression 3 (AR specific) Table 430 – Expression 4 (API specific) Table 431 – Expression 5 (device specific)
440	Table 432 – Grouping of DiagnosisData
441	Table 433 – Index (user specific) Table 434 – Index (subslot specific)
445	Table 435 – Index (slot specific)
446	Table 436 – Index (AR specific)
448	Table 437 – Index (API specific)
449	Table 438 – Index (device specific)
452	5.2.4 Coding section related to AL services Table 439 – RecordDataLength Table 440 – ARType
453	Table 441 – IOCRMulticastMACAdd using RT_CLASS_UDP Table 442 – IOCRMulticastMACAdd using RT_CLASS_x
454	Table 443 – Type 10 OUI Table 444 – ARProperties.State Table 445 – ARProperties.SupervisorTakeoverAllowed
455	Table 446 – ARProperties.ParameterizationServer Table 447 – ARProperties.DeviceAccess Table 448 – ARProperties.CompanionAR Table 449 – ARProperties.AcknowledgeCompanionAR
456	Table 450 – ARProperties.CombinedObjectContainer with ARProperties.StartupMode == Legacy Table 451 – ARProperties.CombinedObjectContainer with ARProperties.StartupMode == Advanced Table 452 – ARProperties.StartupMode Table 453 – ARProperties.PullModuleAlarmAllowed
457	Table 454 – IOCRProperties.RTClass
458	Table 455 – IOCRTagHeader.IOCRVLANID Table 456 – IOCRTagHeader.IOUserPriority Table 457 – IOCRType Table 458 – CMInitiatorActivityTimeoutFactor with ARProperties.DeviceAccess==0
459	Table 459 – CMInitiatorActivityTimeoutFactor with ARProperties.DeviceAccess==1 or ARProperties.StartupMode==1 Table 460 – CMInitiatorTriggerTimeoutFactor
460	Table 461 – IODataObjectFrameOffset Table 462 – IOCSFrameOffset
461	Table 463 – LengthIOCS Table 464 – LengthIOPS Table 465 – LengthData
462	Table 466 – AlarmCRProperties.Priority Table 467 – AlarmCRProperties.Transport Table 468 – AlarmCRTagHeaderHigh.AlarmCRVLANID
463	Table 469 – AlarmCRTagHeaderHigh.AlarmUserPriority Table 470 – AlarmCRTagHeaderLow.AlarmCRVLANID Table 471 – AlarmCRTagHeaderLow.AlarmUserPriority Table 472 – AlarmSequenceNumber
464	Table 473 – AlarmCRType Table 474 – RTATimeoutFactor Table 475 – RTARetries
465	Table 476 – AddressResolutionProperties.Protocol Table 477 – AddressResolutionProperties.Factor
466	Table 478 – MCITimeoutFactor Table 479 – DeviceIDLow and DeviceIDHigh
467	Table 480 – VendorIDLow Table 481 – VendorIDHigh Table 482 – ModuleIdentNumber
468	Table 483 – SubmoduleIdentNumber
469	Table 484 – ARUUID Table 485 – ARUUID in conjunction with ARType==IOCARSR Table 486 – Conjunction between ARUUID.ARnumber and Endpoint1 or Endpoint2
470	Table 487 – ARUUID.ConfigID generation rule Table 488 – TargetARUUID Table 489 – AdditionalValue1 and AdditionalValue2 Table 490 – ControlBlockProperties in conjunction with ControlCommand.ApplicationReady with ARProperties.StartupMode==1
471	Table 491 – ControlBlockProperties in conjunction with ControlCommand.ApplicationReady with ARProperties.StartupMode==0 Table 492 – ControlBlockProperties in conjunction with the othervalues of the field ControlCommand Table 493 – ControlCommand.PrmEnd Table 494 – ControlCommand.ApplicationReady
472	Table 495 – ControlCommand.Release Table 496 – ControlCommand.Done Table 497 – ControlCommand.ReadyForCompanion Table 498 – ControlCommand.ReadyForRT_CLASS_3 Table 499 – ControlCommand.PrmBegin
473	Table 500 – DataDescription.Type Table 501 – Values of DataLength
474	Table 502 – Values of SendClockFactor
475	Table 503 – Values of ReductionRatio for RT_CLASS_1 and RT_CLASS_2 Table 504 – Values of ReductionRatio for RT_CLASS_3 and SendClockFactor ≥ 8 Table 505 – Values of ReductionRatio for RT_CLASS_3 and SendClockFactor < 8 Table 506 – Values of ReductionRatio in conjunction with a non power of 2 SendClockFactor
476	Table 507 – Values of ReductionRatio for RT_CLASS_UDP Table 508 – Values of Phase Table 509 – Values of Sequence
477	Table 510 – DataHoldFactor of a frame Table 511 – DataHoldFactor of a Subframe
478	Table 512 – Values of FrameSendOffset
479	Figure 112 – FrameSendOffset vs. duration of a cycle Table 513 – ModuleState
480	Table 514 – SubmoduleState.AddInfo Table 515 – SubmoduleState.Advice Table 516 – SubmoduleState.MaintenanceRequired Table 517 – SubmoduleState.MaintenanceDemanded
481	Table 518 – SubmoduleState.Fault Table 519 – SubmoduleState.ARInfo Table 520 – SubmoduleState.IdentInfo
482	Table 521 – SubmoduleState.FormatIndicator Table 522 – SubmoduleProperties.Type Table 523 – SubmoduleProperties.SharedInput
483	Table 524 – SubmoduleProperties.ReduceInputSubmoduleDataLength Table 525 – SubmoduleProperties.ReduceOutputSubmoduleDataLength Table 526 – SubmoduleProperties.DiscardIOXS
484	Table 527 – SubstitutionMode Table 528 – SubstituteActiveFlag
485	Table 529 – InitiatorUDPRTPort Table 530 – ResponderUDPRTPort Table 531 – InitiatorRPCServerPort
486	5.2.5 Coding section related to ARVendorBlock Table 532 – ResponderRPCServerPort Table 533 – MaxAlarmDataLength
487	Table 534 – APStructureIdentifier with API==0 Table 535 – APStructureIdentifier with API ≠ 0 Table 536 – ExtendedIdentificationVersionHigh Table 537 – ExtendedIdentificationVersionLow
488	5.2.6 Coding section related to PNIOStatus Table 538 – Values of ErrorCode for negative responses
489	Table 539 – Values of ErrorDecode Table 540 – Coding of ErrorCode1 with ErrorDecode PNIORW
490	Table 541 – Coding of ErrorCode2 with ErrorDecode PNIORW
491	Table 542 – Coding of ErrorCode1 with ErrorDecode:= PNIO
494	Table 543 – Values of ErrorCode2 for ErrorDecode:= PNIO and ErrorCode1 (part 1)
497	Table 544 – Values of ErrorCode2 for ErrorDecode:= PNIOand ErrorCode1 (part 2 – alarm acknowledge)
498	Table 545 – Values of ErrorCode2 for ErrorDecode:= PNIOand ErrorCode1 (part 3 – machines)
499	Table 546 – Values of ErrorCode2 for ErrorDecode:= PNIOand ErrorCode1 (part 4 – IO controller)
501	Table 547 – Values of ErrorCode2 for ErrorDecode:= PNIOand ErrorCode1 (part 5 – IO device)
502	Table 548 – Values of ErrorCode2 for ErrorDecode:= PNIOand ErrorCode1 (part 6 – abort reasons)
505	5.2.7 Coding section related to I&M Records Table 549 – Values of ErrorCode2 for ErrorDecode:= PNIOand ErrorCode1 (part 7 – Reserved) Table 550 – Coding of ErrorCode1 for ErrorDecode with the value ManufacturerSpecific Table 551 – Coding of ErrorCode2 for ErrorDecode with the value ManufacturerSpecific Table 552 – Visible characters
506	Table 553 – FactoryReset / ResetToFactory behavior(legacy from IEC 61158-x-3) Table 554 – FactoryReset / ResetToFactory behavior(default without IEC 61158-x-3 history) Table 555 – FactoryReset / ResetToFactory behavior if used in conjuction with functional safety submodules Table 556 – IM_Hardware_Revision
507	Table 557 – IM_SWRevision_Functional_Enhancement Table 558 – IM_SWRevision_Bug_Fix Table 559 – IM_SWRevision_Internal_Change Table 560 – IM_Revision_Counter
508	Table 561 – IM_Profile_ID Table 562 – IM_Profile_Specific_Type in conjunction with IM_Profile_ID == 0x0000 Table 563 – IM_Profile_Specific_Type in conjunctionwith IM_Profile_ID range 0x0001 – 0xF6FF
509	Table 564 – IM_Version_Major Table 565 – IM_Version_Minor Table 566 – IM_Supported.I&M1
511	Table 567 – IM_Date with time Table 568 – IM_Date without time Table 569 – IM_Annotation
512	5.2.8 Coding section related to Alarm and Diagnosis PDUs Table 570 – IM_OrderID Table 571 – IM_UniqueIdentifier
513	Table 572 – UserStructureIdentifier
515	Table 573 – ChannelErrorType – range 1
516	Table 574 – ChannelErrorType – range 2 Table 575 – ChannelErrorType – range 3
517	Table 576 – ChannelErrorType – range 4 Table 577 – ChannelNumber
518	Table 578 – ChannelProperties.Type Table 579 – ChannelProperties.Accumulative
519	Table 580 – ChannelProperties.Maintenance Table 581 – Valid combinations within ChannelProperties
520	Table 582 – Valid combinations for Alarmnotification and RecordDataRead(DiagnosisData)
521	Table 583 – ChannelProperties.Specifier Table 584 – ChannelProperties.Direction Table 585 – ExtChannelErrorType
522	Table 586 – Allowed combinations of ChannelErrorType,ExtChannelErrorType, and ExtChannelAddValue Table 587 – ExtChannelErrorType for ChannelErrorType 0 – 0xFF Table 588 – Additional ExtChannelErrorType for ChannelErrorType 0x0F and 0x10 Table 589 – ExtChannelErrorType for ChannelErrorType 0x0100 – 0x7FFF
523	Table 590 – ExtChannelErrorType for ChannelErrorType “Data transmission impossible” Table 591 – ExtChannelErrorType for ChannelErrorType “Remote mismatch”
524	Table 592 – ExtChannelErrorType for ChannelErrorType“Media redundancy mismatch – Ring” Table 593 – ExtChannelErrorType for ChannelErrorType“Media redundancy mismatch – Interconnection”
525	Table 594 – ExtChannelErrorType for ChannelErrorType“Sync mismatch” and for ChannelErrorType “Time mismatch” Table 595 – ExtChannelErrorType for ChannelErrorType “Isochronous mode mismatch” Table 596 – ExtChannelErrorType for ChannelErrorType “Multicast CR mismatch”
526	Table 597 – ExtChannelErrorType for ChannelErrorType “Fiber optic mismatch” Table 598 – ExtChannelErrorType for ChannelErrorType“Network component function mismatch” Table 599 – ExtChannelErrorType for ChannelErrorType“Dynamic Frame Packing function mismatch”
527	Table 600 – ExtChannelErrorType for ChannelErrorType“Media redundancy with planned duplication mismatch” Table 601 – ExtChannelErrorType for ChannelErrorType “Multiple interface mismatch”
528	Table 602 – Values for ExtChannelAddValue Table 603 – Values for “Accumulative Info”
529	Table 604 – Values for ExtChannelErrorType “Parameter fault detail” Table 605 – Values for ExtChannelAddValue.Index Table 606 – Values for ExtChannelAddValue.Offset Table 607 – Values for ExtChannelErrorType “Consistency fault detail”
530	Table 608 – Values for ExtChannelAddValue.Index Table 609 – Values for “Fiber optic mismatch” – “Power Budget” Table 610 – Values for “Network component function mismatch” – “Frame dropped”
531	Table 611 – Values for “Remote mismatch” – ”Peer CableDelay mismatch” Table 612 – Values for “Multiple interface mismatch” – ”Conflicting MultipleInterfaceMode.NameOfDevice mode” Table 613 – Values for “Multiple interface mismatch” – ”Inactive StandardGateway”
532	Table 614 – Values for QualifiedChannelQualifier Table 615 – Values for MaintenanceStatus
533	Figure 113 – Severity classification of fault, maintenance and normal
534	5.2.9 Coding section related to upload and retrieval 5.2.10 Coding section related to iParameter Table 616 – URRecordIndex Table 617 – URRecordLength Table 618 – iPar_Req_Header Table 619 – Max_Segm_Size
535	5.2.11 Coding section related to Physical Device Interface Data 5.2.12 Coding section related to Physical Device Port Data Table 620 – Transfer_Index Table 621 – Total_iPar_Size Table 622 – MultipleInterfaceMode.NameOfDevice
536	Table 623 – NumberOfPeers in conjunction with PDPortDataCheck Table 624 – NumberOfPeers in conjunction with PDPortDataReal or PDPortDataRealExtended
537	Table 625 – LineDelay.Value with LineDelay.FormatIndicator == 0 Table 626 – LineDelay.Value with LineDelay.FormatIndicator == 1
538	5.2.13 Coding section related to Physical Device IR Data Table 627 – LineDelay.FormatIndicator Table 628 – RxPort Table 629 – NumberOfTxPortGroups
539	Table 630 – TxPortEntry
540	Table 631 – FrameDetails.SyncFrame in conjunction with FrameDataProperties.ForwardingMode==“Absolute mode” Table 632 – FrameDetails.SyncFrame in conjunction with FrameDataProperties.ForwardingMode==“Relative mode”
541	Table 633 – FrameDetails.MeaningFrameSendOffset Table 634 – FrameDetails.MediaRedundancyWatchDog Table 635 – FrameDataProperties.ForwardingMode Table 636 – FrameDataProperties.FastForwardingMulticastMACAdd
542	Table 637 – FrameDataProperties.FragmentationMode Table 638 – MAUType
546	Table 639 – MAUType with MAUTypeExtension Table 640 – Valid combinations between MAUType and LinkState
547	Table 641 – MAUTypeExtensions and its corresponding MAUTypes Table 642 – CheckSyncMode.CableDelay Table 643 – CheckSyncMode.SyncMaster
548	Table 644 – MAUTypeMode.Check Table 645 – DomainBoundaryIngress Table 646 – DomainBoundaryEgress
549	Table 647 – DomainBoundaryAnnounce Table 648 – MulticastBoundary
550	Table 649 – PeerToPeerBoundary Table 650 – DCPBoundary
551	Table 651 – PreambleLength.Length Table 652 – LinkState.Link
552	Table 653 – LinkState.Port Table 654 – MediaType Table 655 – MaxBridgeDelay
553	Table 656 – NumberOfPorts Table 657 – MaxPortTxDelay Table 658 – MaxPortRxDelay Table 659 – MaxLineRxDelay
554	Table 660 – YellowTime
555	Figure 114 – Calculation principle for a cycle
556	Figure 115 – Calculation principle for the minimum YellowTime Table 661 – StartOfRedFrameID in conjunction with ARProperties.StartupMode:= Legacy
557	Table 662 – StartOfRedFrameID in conjunction with ARProperties.StartupMode:= Advanced Table 663 – EndOfRedFrameID Table 664 – Dependencies of StartOfRedFrameID and EndOfRedFrameID Table 665 – NumberOfAssignments
558	Table 666 – NumberOfPhases Table 667 – AssignedValueForReservedBegin
559	Table 668 – AssignedValueForOrangeBegin Table 669 – AssignedValueForReservedEnd Table 670 – Values of RedOrangePeriodBegin
560	Table 671 – Dependencies of RedOrangePeriodBegin,OrangePeriodBegin and GreenPeriodBegin Table 672 – Values of OrangePeriodBegin with ARProperties.StartupMode == Legacy Table 673 – Values of OrangePeriodBegin with ARProperties.StartupMode == Advanced Table 674 – Values of GreenPeriodBegin
561	5.2.14 Coding section related to Physical Sync Data Table 675 – EtherType Table 676 – SyncProperties.Role Table 677 – SyncProperties.SyncID
562	Table 678 – ReservedIntervalBegin with ARProperties.StartupMode == Legacy Table 679 – ReservedIntervalBegin with ARProperties.StartupMode == Advanced Table 680 – ReservedIntervalEnd with ARProperties.StartupMode == Legacy Table 681 – ReservedIntervalEnd with ARProperties.StartupMode == Advanced Table 682 – Dependencies of ReservedIntervalBegin and ReservedIntervalEnd
563	Figure 116 – Definition of the reserved interval Table 683 – SyncSendFactor
564	Table 684 – PTCPTimeoutFactor Table 685 – PTCPTakeoverTimeoutFactor
565	Table 686 – PTCPMasterStartupTime Table 687 – PLLWindow
566	5.2.15 Coding section related to Isochrone Mode Data Figure 117 – Toplevel view to the PLL window Figure 118 – Definition of PLL window
567	Table 688 – TimeIObase Table 689 – TimeDataCycle Table 690 – TimeIOInput
568	5.2.16 Coding section related to Physical Time Data Table 691 – TimeIOOutput Table 692 – TimeIOInputValid Table 693 – TimeIOOutputValid Table 694 – ControllerApplicationCycleFactor
569	Figure 119 – Toplevel view to the time PLL window Table 695 – TimePLLWindow
570	Figure 120 – Definition of time PLL window Table 696 – TimeMasterPriority1 Table 697 – TimeMasterPriority2
571	5.2.17 Coding section related to Media Redundancy Table 698 – MRP_Version Table 699 – MRP_RingState Table 700 – MRP_DomainUUID
572	Table 701 – MRP_LengthDomainName Table 702 – MRP_DomainName Table 703 – MRP_Role Table 704 – MRP_Version
573	Table 705 – MRP_Prio Table 706 – MRP_TOPchgT
574	Table 707 – MRP_TOPNRmax Table 708 – MRP_TSTshortT Table 709 – MRP_TSTdefaultT
575	Table 710 – MRP_TSTNRmax Table 711 – MRP_LNKdownT Table 712 – MRP_LNKupT
576	Table 713 – MRP_LNKNRmax Table 714 – MRP_Check.MediaRedundancyManager Table 715 – MRP_Check.MRP_DomainUUID
577	Table 716 – MRP_NumberOfEntries Table 717 – MRP_Instance Table 718 – MRPIC_LengthDomainName Table 719 – MRPIC_DomainName
578	Table 720 – MRPIC_State Table 721 – MRPIC_Role Table 722 – MRPIC_DomainID
579	Table 723 – MRPIC_TOPchgT Table 724 – MRPIC_TOPNRmax
580	Table 725 – MRPIC_LinkStatusChangeT Table 726 – MRPIC_LinkStatusNRmax Table 727 – MRPIC_LNKdownT
581	Table 728 – MRPIC_LNKupT Table 729 – MRPIC_LNKNRmax
582	5.2.18 Coding section related to fiber optics Table 730 – MRPIC_StartDelay Table 731 – MRPIC_Check.MIM Table 732 – MRPIC_Check.MRPIC_DomainID
583	Table 733 – VendorBlockType Table 734 – FiberOpticType Table 735 – FiberOpticCableType
584	5.2.19 Coding section related to network components Table 736 – FiberOpticPowerBudgetType.Value Table 737 – FiberOpticPowerBudgetType.CheckEnable Table 738 – NCDropBudgetType.Value
585	5.2.20 Coding section related port statistic Figure 121 – Detection of dropped frames – appear Figure 122 – Detection of dropped frames – disappear Table 739 – NCDropBudgetType.CheckEnable
586	Table 740 – CounterStatus.ifInOctets Table 741 – CounterStatus.ifOutOctets Table 742 – CounterStatus.ifInDiscards Table 743 – CounterStatus.ifOutDiscards Table 744 – CounterStatus.ifInErrors
587	Table 745 – CounterStatus.ifOutErrors Table 746 – CounterStatus.Reserved
588	5.2.21 Coding section related to fast startup Table 747 – FSHelloMode.Mode Table 748 – FSHelloInterval
589	Table 749 – FSHelloRetry Table 750 – FSHelloDelay Table 751 – FSParameterMode.Mode
590	5.2.22 Coding section related to DFP Table 752 – FSParameterUUID Table 753 – NumberOfSubframeBlocks Table 754 – SFIOCRProperties.DistributedWatchDogFactor
591	Table 755 – SFIOCRProperties.RestartFactorForDistributedWD Table 756 – SFIOCRProperties.DFPMode
592	Table 757 – SFIOCRProperties.DFPDirection Table 758 – SFIOCRProperties.DFPRedundantPathLayout Table 759 – SFIOCRProperties.SFCRC16
593	Figure 123 – Detection of DFP late error – appear and disappear Table 760 – SubframeData.Position Table 761 – SubframeData.DataLength
594	5.2.23 Coding section related to MRPD Table 762 – Event function table Table 763 – SubframeOffset
595	5.2.24 Coding section related to auto configuration Figure 124 – MediaRedundancyWatchDog expired – appear and disappear Table 764 – Event function table
596	Table 765 – SCFEntry
597	Table 766 – ACCommunicationProperties.DFP Table 767 – ACCommunicationProperties.RTC3 Table 768 – ACCommunicationProperties.RTCUDP
598	5.2.25 Coding section related to controller to controller communication Table 769 – ACMinDeviceInterval Table 770 – FromOffsetData Table 771 – NextOffsetData Table 772 – TotalSize
599	5.2.26 Coding section related to system redundancy Table 773 – RedundancyInfo.EndPoint1 Table 774 – RedundancyInfo.EndPoint2 Table 775 – Valid combination of RedundancyInfo.EndPoint1 and RedundancyInfo.EndPoint2
600	Figure 125 – EndPoint1 and Endpoint2 scheme – above and below Figure 126 – EndPoint1 and Endpoint2 scheme – left and right Table 776 – SRProperties.InputValidOnBackupAR with SRProperties.Mode == 0
601	Table 777 – SRProperties.InputValidOnBackupAR with SRProperties.Mode == 1 Table 778 – SRProperties.Reserved_1 Table 779 – SRProperties.Mode Table 780 – RedundancyDataHoldFactor
602	5.2.27 Coding section related to energy saving 5.2.28 Coding section related to asset management Table 781 – NumberOfEntries Table 782 – PE_OperationalMode
603	Table 783 – AM_Location.Structure Table 784 – AM_Location.Levelx
604	Table 785 – AM_Location.Reserved1 Table 786 – AM_Location.BeginSubslotNumber Table 787 – AM_Location.EndSubslotNumber Table 788 – AM_Location.Reserved2
605	Table 789 – AM_Location.Reserved3 Table 790 – AM_Location.Reserved4 Table 791 – AM_DeviceIdentification.DeviceSubID
606	Table 792 – AM_DeviceIdentification.DeviceSubID for AM_DeviceIdentification.Organization:= 0x0000 Table 793 – AM_DeviceIdentification.DeviceID Table 794 – AM_DeviceIdentification.VendorID Table 795 – AM_DeviceIdentification.Organization
607	5.2.29 Coding section related to reporting system Table 796 – RS_Properties.AlarmTransport Table 797 – RS_BlockType used for events
608	Table 798 – RS_BlockType used for adjust Table 799 – RS_BlockLength in conjunction with RS_EventBlock
609	Table 800 – RS_BlockLength in conjunction with other blocks Table 801 – RS_Specifier.SequenceNumber Table 802 – RS_Specifier.Specifier
610	Table 803 – RS_MinusError Table 804 – RS_PlusError Table 805 – RS_ExtensionBlockType Table 806 – RS_ExtensionBlockLength
611	Table 807 – RS_MaxScanDelay Table 808 – RS_AdjustSpecifier.Incident Table 809 – RS_ReasonCode.Reason
612	Table 810 – RS_ReasonCode.Detail Table 811 – RS_DigitalInputCurrentValue.Value Table 812 – RS_DomainIdentification Table 813 – RS_MasterIdentification
613	5.2.30 Coding section related to Logbook Table 814 – ActualLocalTimeStamp Table 815 – LocalTimeStamp Table 816 – NumberOfLogEntries Table 817 – EntryDetail
614	5.2.31 Coding section related to Time 5.2.32 Coding section related to Channel Related Process Alarm Reason Table 818 – Time_TimeStamp Table 819 – Allowed combinations of PRAL_Reason, PRAL_ExtReason,and PRAL_ReasonAddValue Table 820 – PRAL_ChannelProperties.Reserved_1
615	Table 821 – PRAL_ChannelProperties.Accumulative Table 822 – PRAL_ChannelProperties.Reserved_2 Table 823 – PRAL_ChannelProperties.Direction Table 824 – Values for PRAL_Reason
617	5.2.33 PDU checking rules Table 825 – Values for PRAL_ExtReason Table 826 – Usage of PRAL_ReasonAddValue Table 827 – Values for PRAL_ReasonAddValue[0..3] Table 828 – Values for PRAL_ReasonAddValue[0] to [127]
618	Table 829 – ArgsLength check
619	Table 830 – ARBlockReq – request check
620	Table 831 – IOCRBlockReq – request check
624	Table 832 – AlarmCRBlockReq – request check Table 833 – ExpectedSubmoduleBlockReq – request check
626	Table 834 – PrmServerBlock – request check Table 835 – MCRBlockReq – request check
627	Table 836 – ARRPCBlockReq – request check Table 837 – IRInfoBlock – request check
628	Table 838 – SRInfoBlock – request check Table 839 – RSInfoBlock – request check
629	Table 840 – ArgsLength check Table 841 – ARBlockRes – response check
630	Table 842 – IOCRBlockRes – response check
631	Table 843 – AlarmCRBlockRes – response check Table 844 – ModuleDiffBlock – response check
632	Table 845 – ARServerBlockRes – response check
633	Table 846 – ArgsLength check Table 847 – ControlBlockConnect(PrmEnd) – request check
634	Table 848 – ControlBlockPlug(PrmEnd) – request check Table 849 – ControlBlockConnect(PrmBegin) – request check
635	Table 850 – SubmoduleListBlock – request check Table 851 – ArgsLength check
636	Table 852 – ControlBlockConnect – response check Table 853 – ControlBlockPlug – response check
637	Table 854 – ControlBlockConnect(PrmBegin) – response check
638	Table 855 – ArgsLength check Table 856 – ControlBlockConnect(ApplRdy) – request check
639	Table 857 – ControlBlockPlug(ApplRdy) – request check Table 858 – ArgsLength check
640	Table 859 – ControlBlockConnect – response check Table 860 – ControlBlockPlug – response check
641	Table 861 – ArgsLength check
642	Table 862 – ReleaseBlock – request check Table 863 – ArgsLength check
643	Table 864 – ReleaseBlock – response check Table 865 – ArgsLength check
644	Table 866 – IODWriteReqHeader – request check Table 867 – ArgsLength check
645	Table 868 – IODWriteResHeader – response check
646	Table 869 – ArgsLength check
647	Table 870 – ArgsLength check Table 871 – ArgsLength check
648	Table 872 – IODReadReqHeader – request check
649	Table 873 – RecordDataReadQuery – request check Table 874 – ArgsLength check Table 875 – IODReadResHeader – response check
650	5.3 FAL protocol state machines 5.3.1 Overall structure Figure 127 – Relationship among Protocol Machines
652	5.4 AP-Context state machine 5.5 FAL Service Protocol Machines 5.5.1 Overview 5.5.2 FAL Service Protocol Machine Device Table 876 – Primitives issued by AP-Context (FAL user) to FSPMDEV
655	Table 877 – Primitives issued by FSPMDEV to AP-Context (FAL user)
658	Table 878 – Functions, Macros, Timers and Variables usedby the AP-Context (FAL user) to FSPMDEV
659	Table 879 – Functions, Macros, Timers and Variables usedby the FSPMDEV to AP-Context (FAL user)
661	5.5.3 FAL Service Protocol Machine Controller
662	Table 880 – Primitives issued by AP-Context (FAL user) to FSPMCTL
664	Table 881 – Primitives issued by FSPMCTL to AP-Context (FAL user)
668	Table 882 – Functions, Macros, Timers and Variables usedby AP-Context (FAL user) to FSPMCTL
669	Table 883 – Functions, Macros, Timers and Variables usedby FSPMCTL to AP-Context (FAL user)
672	5.6 Application Relationship Protocol Machines 5.6.1 Alarm Protocol Machine Initiator Table 884 – Remote primitives issued or received by ALPMI
673	Figure 128 – State transition diagram of ALPMI Table 885 – Local primitives issued or received by ALPMI
674	Table 886 – ALPMI state table
675	Table 887 – Functions, Macros, Timers and Variables used by ALPMI
676	5.6.2 Alarm Protocol Machine Responder Table 888 – Remote primitives issued or received by ALPMR
677	Figure 129 – State transition diagram of ALPMR Table 889 – Local primitives issued or received by ALPMR
678	Table 890 – ALPMR state table
680	5.6.3 Device Table 891 – Functions, Macros, Timers and Variables used by ALPMR
681	Figure 130 – Scheme of the IO device CM
683	Figure 131 – State transition diagram of the IO device CM
684	Table 892 – Remote primitives issued or received by CMDEV
686	Table 893 – Local primitives issued or received by CMDEV
687	Figure 132 – State transition diagram of CMDEV
689	Table 894 – CMDEV state table
691	Table 895 – Functions, Macros, Timers and Variables used by CMDEV
692	Figure 133 – Scheme of the IO device CM – device access
693	Table 896 – Remote primitives issued or received by CMDEV_DA Table 897 – Local primitives issued or received by CMDEV_DA
694	Figure 134 – State transition diagram of CMDEV_DA
695	Table 898 – CMDEV_DA state table Table 899 – Functions, Macros, Timers and Variables used by CMDEV(DA)
696	Table 900 – Remote primitives issued or received by CMSU Table 901 – Local primitives issued or received by CMSU
698	Figure 135 – State transition diagram of CMSU
699	Table 902 – CMSU state table
702	Table 903 – Functions, Macros, Timers and Variables used by the CMSU Table 904 – Remote primitives issued or received by CMIO Table 905 – Local primitives issued or received by CMIO
703	Figure 136 – State transition diagram of CMIO
704	Table 906 – CMIO state table
705	Table 907 – Functions used by the CMIO Table 908 – Remote primitives issued or received by CMRS
706	Figure 137 – State transition diagram of CMRS Table 909 – Local primitives issued or received by CMRS
707	Table 910 – CMRS state table Table 911 – Functions, Macros, Timers and Variables used by the CMRS
708	Table 912 – Remote primitives issued or received by CMWRR Table 913 – Local primitives issued or received by CMWRR
709	Figure 138 – State transition diagram of CMWRR
710	Table 914 – CMWRR state table
712	Table 915 – Functions, Macros, Timers and Variables used by CMWRR
713	Table 916 – Remote primitives issued or received by CMRDR Table 917 – Local primitives issued or received by CMRDR
714	Figure 139 – State transition diagram of CMRDR Table 918 – CMRDR state table
715	Table 919 – Functions, Macros, Timers and Variables used by CMRDR Table 920 – Remote primitives issued or received by CMSM
716	Figure 140 – State transition diagram of CMSM Table 921 – Local primitives issued or received by CMSM
717	Table 922 – CMSM state table
718	Table 923 – Functions, Macros, Timers and Variables used by the CMSM
719	Table 924 – Remote primitives received by CMPBE Table 925 – Local primitives issued or received by CMPBE
720	Figure 141 – State transition diagram of CMPBE
721	Table 926 – CMPBE state table
723	Table 927 – Functions, Macros, Timers and Variables used by the CMPBE Table 928 – Remote primitives issued or received by CMDMC
724	Table 929 – Local primitives issued or received by CMDMC
725	Figure 142 – State transition diagram of CMDMC
726	Table 930 – CMDMC state table
728	Table 931 – Functions, Macros, Timers and Variables used by the CMDMC
729	Table 932 – Remote primitives issued or received by CMINA Table 933 – Local primitives issued or received by CMINA
730	Figure 143 – State transition diagram of CMINA
731	Table 934 – CMINA state table
737	Table 935 – Functions, Macros, Timers and Variables used by the CMINA
738	Table 936 – Return values of CheckAPDU
739	Table 937 – Remote primitives issued or received by CMRPC
741	Figure 144 – State transition diagram of CMRPC Table 938 – Local primitives issued or received by CMRPC
742	Table 939 – CMRPC state table
745	Table 940 – Functions, Macros, Timers and Variables used by the CMRPC
747	Figure 145 – Intersection and residual amount using different ARUUID.ConfigIDs Table 941 – Return values of CheckRPC
748	Figure 146 – Intersection and removed amount using different ARUUID.ConfigIDs Table 942 – Remote primitives issued or received by CMSRL
749	Figure 147 – State transition diagram of CMSRL Table 943 – Local primitives issued or received by CMSRL
750	Table 944 – CMSRL state table
753	Table 945 – Functions, Macros, Timers and Variables used by the CMSRL
754	Table 946 – Combinations of DataStatus for Output buffers Table 947 – Combinations of DataStatus for Input buffers
755	Figure 148 – Single Input and single Output buffer of CMSRL
756	Figure 149 – Dynamic reconfiguration with CMSRL
757	Figure 150 – Alarm queue management of CMSRL
758	Figure 151 – Reporting System management of CMSRL Figure 152 – Primary: Switchover time between two ARs of an ARset
759	Figure 153 – Backup: Switchover time between two ARs of an ARset
760	Table 948 – Remote primitives issued or received by CMSRL_AL Table 949 – Local primitives issued or received by CMSRL_AL
761	Figure 154 – State transition diagram of CMSRL_AL
762	Table 950 – CMSRL_AL state table
763	5.6.4 Controller Table 951 – Functions, Macros, Timers and Variables used by the CMSRL_AL
764	Figure 155 – Scheme of the IO controller CM
765	Figure 156 – State transition diagram of the IO controller CM
766	Table 952 – Remote primitives issued or received by CMCTL
767	Table 953 – Local primitives issued or received by CMCTL
769	Figure 157 – State transition diagram of CMCTL
771	Table 954 – CMCTL state table
774	Table 955 – Functions, Macros, Timers and Variables used by the CMCTL Table 956 – Remote primitives issued or received by CTLSM
775	Table 957 – Local primitives issued or received by CTLSM
776	Figure 158 – State transition diagram of CTLSM Table 958 – CTLSM state table
777	Table 959 – Functions, Macros, Timers and Variables used by the CTLSM Table 960 – Remote primitives issued or received by CTLIO
778	Figure 159 – State transition diagram of CTLIO Table 961 – Local primitives issued or received by CTLIO
779	Table 962 – CTLIO state table
780	Table 963 – Functions, Macros, Timers and Variables used by the CTLIO
781	Table 964 – Remote primitives received by CTLRDI Table 965 – Local primitives issued or received by CTLRDI
782	Figure 160 – State transition diagram of CTLRDI
783	Table 966 – CTLRDI state table Table 967 – Functions, Macros, Timers and Variables used by CTLRDI
784	Table 968 – Remote Primitives received by CTLRDR
785	Figure 161 – State transition diagram of CTLRDR Table 969 – Local primitives issued or received by CTLRDR Table 970 – CTLRDR state table
786	Table 971 – Functions, Macros, Timers and Variables used by CTLRDR Table 972 – Remote primitives received by CTLRPC
789	Figure 162 – State transition diagram of CTLRPC Table 973 – Local primitives issued or received by CTLRPC
790	Table 974 – CTLRPC state table
792	Table 975 – Functions, Macros, Timers and Variables used by the CTLRPC Table 976 – Remote primitives issued or received by CTLSU
793	Table 977 – Local Primitives issued or received by CTLSU
794	Figure 163 – State transition diagram of CTLSU
795	Table 978 – CTLSU state table
797	Table 979 – Functions, Macros, Timers and Variables used by the CTLSU
798	Table 980 – Remote primitives issued or received by CTLWRI Table 981 – Local primitives issued or received by CTLWRI
799	Figure 164 – State transition diagram of CTLWRI
800	Table 982 – CTLWRI state table
801	Table 983 – Functions, Macros, Timers and Variables used by CTLWRI
802	Table 984 – Remote primitives issued or received by CTLWRR Table 985 – Local primitives issued or received by CTLWRR
803	Figure 165 – State transition diagram of CTLWRR
804	Table 986 – CTLWRR state table Table 987 – Functions, Macros, Timers and Variables used by CTLWRR
805	Table 988 – Remote primitives issued or received by CTLPBE
806	Figure 166 – State transition diagram of CTLPBE Table 989 – Local primitives issued or received by CTLPBE
807	Table 990 – CTLPBE state table
809	Table 991 – Functions, Macros, Timers and Variables used by CTLPBE
810	Table 992 – Remote primitives issued or received by CTLDINA
811	Table 993 – Local primitives issued or received by CTLDINA
812	Figure 167 – State transition diagram of CTLDINA
813	Table 994 – CTLDINA state table
816	Table 995 – Functions, Macros, Timers and Variables used by the CTLDINA
817	Figure 168 – Automatic NameOfStation assignment
818	Table 996 – Remote primitives issued or received by CTLSRL Table 997 – Local primitives issued or received by CTLSRL
819	Figure 169 – State transition diagram of CTLSRL
820	Table 998 – CTLSRL state table
822	Table 999 – Functions, Macros, Timers and Variables used by the CTLSRL
823	Figure 170 – Input and Output buffer of CTLSRL Figure 171 – Input and Output buffer with dynamic reconfiguration
824	Figure 172 – Alarm queue management of CTLSRL
825	5.7 DLL Mapping Protocol Machines Figure 173 – Alarm queue management with dynamic reconfiguration
826	Annexes Annex A (normative)Unified establishing of an AR for all RT classes A.1 General Table A.1 – Examples for the AR establishing Table A.2 – Startup of Alarm transmitter and receiver
827	A.2 AR establishing Figure A.1 – Establishing of an AR using RT_CLASS_1, RT_CLASS_2 or RT_CLASS_3 (Initial connection monitoring w/o RT)
828	Figure A.2 – Establishing of an AR using RT_CLASS_1, RT_CLASS_2 or RT_CLASS_3 (Connection monitoring with RT)
829	Figure A.3 – Principle of the data evaluation during startup(delayed RED channel establishment)
830	Figure A.4 – Principle of the data evaluation during startup(immediate RED channel establishment)
831	Figure A.5 – Principle of the data evaluation during startup(Special case: Isochronous mode application)
832	A.3 Startup of Alarm transmitter and receiver Figure A.6 – Startup of Alarm transmitter and receiver without System Redundancy
833	Figure A.7 – Startup of Alarm transmitter and receiver with System Redundancy
834	Figure A.8 – Startup of Alarm transmitter and receiverduring a PrmBegin / PrmEnd / ApplRdy sequence
835	Annex B (normative)Compatible establishing of an AR Table B.1 – Examples for compatible AR establishing
836	Figure B.1 – Establishing of an AR using RT_CLASS_3 AR with startup mode “Legacy”
837	Figure B.2 – Establishing of an AR using RT_CLASS_1, 2 orUDP AR with startup mode “Legacy”
838	Annex C (informative)Establishing of a device access AR Figure C.1 – Establishing of a device access AR
839	Annex D (informative)Establishing of an AR (accelerated procedure)
840	Figure D.1 – Accelerated establishing of an IOAR without error
841	Figure D.2 – Accelerated establishing of an IOAR with “late” error
842	Annex E (informative)Establishing of an AR (fast startup procedure)
843	Figure E.1 – Establishing of an IOAR using fast startup
844	Annex F (informative)Example of the upload, storage and retrieval procedure Figure F.1 – Example of upload with storage
845	Figure F.2 – Example of retrieval with storage
846	Annex G (informative)OSI reference model layers Figure G.1 – Assignment of the OSI reference model layers
847	Annex H (informative)Overview of the IO controller and the IO device state machines Figure H.1 – Overview of the IO controller state machines Figure H.2 – Overview of the IO device state machines
849	Annex I (informative)Priority regeneration Table I.1 – Priority regeneration and queue usage
850	Annex J (informative)Overview of the PTCP synchronization master hierarchy Figure J.1 – Level model for synchronization master hierarchy
851	Figure J.2 – Two level variant of the synchronization master hierarchy
852	Annex K (informative)Optimization of bandwidth usage Figure K.1 – Devices build up in a linear structure Figure K.2 – Propagation of frames in linear transmit direction
853	Figure K.3 – Propagation of a frames in receive direction
854	Annex L (informative)Time constraints for bandwidth allocation Figure L.1 – Overview of time constraints for bandwidth allocation Figure L.2 – Calculation of the length of a RED period
855	Figure L.3 – Calculation of the length of a GREEN period
856	Annex M (informative)Time constraints for the forwarding of a frame M.1 Principle M.2 Forwarding Figure M.1 – IEEE 802.3 definition Figure M.2 – Minimization of bridge delay Table M.1 – IEEE 802.3 cross reference
858	Annex N (informative)Principle of dynamic frame packing Figure N.1 – Dynamic frame packing
859	Figure N.2 – Dynamic frame packing – truncation of outputs Figure N.3 – Dynamic frame packing – concatenation of inputs
860	Figure N.4 – End node mode Figure N.5 – DFPFeed definition
862	Annex O (informative)Principle of Fragmentation Figure O.1 – Principle of fragmentation Figure O.2 – Protocol elements of fragments
863	Figure O.3 – Bandwidth allocation using fragmentation Figure O.4 – Guardian for a fragmentation domain
865	Annex P (informative)MRPD – Principle of seamless media redundancy Figure P.1 – Principle of seamless media redundancy – I/OCR
866	Figure P.2 – Principle of seamless media redundancy – MCR Figure P.3 – Principle of seamless media redundancy – Line
867	Annex Q (normative)Principle of a RED_RELAY without forwardinginformation in PDIRFrameData Figure Q.1 – Generating the FrameSendOffset for a RED_RELAY without forwarding information in PDIRFrameData
870	Annex R (informative)Optimization for fast startup without autonegotiation Figure R.1 – Scheme of a 2-port switch Figure R.2 – Scheme of 2-ports
871	Table R.1 – Truth table Table R.2 – “MAC/PHY configuration/status” with AutoNegotiation disabled Table R.3 – “MAC/PHY configuration/status” with AutoNegotiation enabled Table R.4 – Auto-negotiation support within “MAC/PHY configuration/status”
872	Table R.5 – Auto-negotiation settings
873	Annex S (informative)Example of a PrmBegin, PrmEnd and ApplRdy sequence Figure S.1 – PrmBegin, PrmEnd and ApplRdy procedure
874	Annex T (informative)List of supported MIBs Table T.1 – List of supported MIBs
875	Annex U (informative)Structure and content of BLOB Table U.1 – Content of archive
876	Annex V (normative)LLDP EXT MIB
894	Annex W (normative)Cross reference to the IEC 624392 W.1 Cross reference to the IEC 624392 W.1.1 General W.1.2 Ring Table W.1 – Cross reference IEC 624392 “MRP MIB objects” Table W.2 – Cross reference IEC 624392 “Events, created by state machines”
895	W.1.3 Interconnection Table W.3 – Cross reference IEC 624392 “MRM parameter” Table W.4 – Cross reference IEC 624392 “MRC parameter” Table W.5 – Cross reference IEC 624392 “MRP MIB objects”
896	Table W.6 – Cross reference IEC 624392 “Events, created by state machines” Table W.7 – Cross reference IEC 624392 “MIM parameter” Table W.8 – Cross reference IEC 624392 “MIC parameter”
897	Annex X (normative)Maintaining statistic counters for Ethernet X.1 General X.2 Counting model
898	Figure X.1 – IEEE 802 structure used for statistic counters Table X.1 – Meaning of numbers
899	X.3 Explanation of the IETF RFC defined statistic counters Figure X.2 – IEEE 802 summary for statistic counters Table X.2 – Statistic counters – octets
900	X.4 Value range of the IETF RFC defined statistic counters Table X.3 – Statistic counters – packets or frames Table X.4 – Statistic counters – errors
901	Bibliography

Published By	Publication Date	Number of Pages
BSI	2019	902


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Status	Withdrawn
Title	Industrial communication networks. Fieldbus specifications – Application layer protocol specification. Type 10 elements
Replaces	BS EN 61158-6-10:2014
Publisher	BSI
Committee	GEL/65
Pages	902
Publication Date	2019-09-04
Withdrawn Date	2023-09-04
Replaced By	BS EN IEC 61158-6-10:2023
ISBN	978 0 580 99211 7
Standard Number	BS EN IEC 61158-6-10:2019
Identical National Standard Of	IEC 61158-6-X Ed.4.0, EN 61158-6-X Ed.4.0
Descriptors	Interfaces (data processing), Bus networks, Coding (data conversion), Automatic control systems, Open systems interconnection, Industrial, Communication procedures, Application layer (OSI), Communication networks, Fieldbus, Data transmission, Computer networks, Process control
ICS Codes	35.110 - Networking

BS EN IEC 61158-6-10:2019

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